OpenEnergyOntology.bib

@article{OEO:EnergyAndAI:2021,
  title   = {Introducing the Open Energy Ontology: Enhancing data interpretation and interfacing in energy systems analysis},
  journal = {Energy and AI},
  volume  = {5},
  pages   = {100074},
  year    = {2021},
  issn    = {2666-5468},
  doi     = {https://doi.org/10.1016/j.egyai.2021.100074},
  url     = {https://www.sciencedirect.com/science/article/pii/S2666546821000288},
  author  = {Meisam Booshehri and Lukas Emele and Simon Flügel and Hannah Förster and Johannes Frey and Ulrich Frey and Martin Glauer and Janna Hastings and Christian Hofmann and Carsten Hoyer-Klick and Ludwig Hülk and Anna Kleinau and Kevin Knosala and Leander Kotzur and Patrick Kuckertz and Till Mossakowski and Christoph Muschner and Fabian Neuhaus and Michaja Pehl and Martin Robinius and Vera Sehn and Mirjam Stappel},
  keywords  = {Collaborative ontology development, Linked open data, Metadata annotation, Energy systems analysis},
  abstract  = {Heterogeneous data, different definitions and incompatible models are a huge problem in many domains, with no exception for the field of energy systems analysis. Hence, it is hard to re-use results, compare model results or couple models at all. Ontologies provide a precisely defined vocabulary to build a common and shared conceptualisation of the energy domain. Here, we present the Open Energy Ontology (OEO) developed for the domain of energy systems analysis. Using the OEO provides several benefits for the community. First, it enables consistent annotation of large amounts of data from various research projects. One example is the Open Energy Platform (OEP). Adding such annotations makes data semantically searchable, exchangeable, re-usable and interoperable. Second, computational model coupling becomes much easier. The advantages of using an ontology such as the OEO are demonstrated with three use cases: data representation, data annotation and interface homogenisation. We also describe how the ontology can be used for linked open data (LOD).}
}

@proceedings{OEO:JOWO:2022,
  booktitle = {JOWO 2022: The Joint Ontology Workshops},
  year      = 2022,
  editor    = {Tiago Prince Sales and Maria Hedblom and He Tan},
  number    = 3249,
  series    = {CEUR Workshop Proceedings},
  address   = {Aachen},
  issn      = {1613-0073},
  url       = {http://ceur-ws.org/Vol-3249},
  venue     = {Jönköping, Sweden},
  eventdate = {2022-08-15 to 2022-08-19},
  title     = {Proceedings of the Joint Ontology Workshops 2022 -- Episode VIII: The Svear Sommar of Ontology},
}
@inproceedings{OEO:JOWO:2022:Energy,
  title    = {The representation of energy, energy carriers and fuels in the Open Energy Ontology},
  author   = {Mirjam Stappel and Lukas Emele and Ludwig Hülk and Hannah Förster},
  url      = {https://ceur-ws.org/Vol-3249/paper1-Ensusto.pdf},
  crossref = {OEO:JOWO:2022},
  keywords = {CEUR-WS, ontology, energy, energy carrier, energy system analysis, fossil, fuel, renewable},
  abstract = {The Open Energy Ontology (OEO) is a BFO-based ontology for the domain of energy system analysis. Core of this domain is the concept of energy. Since the concept of energy is ambiguous and has not (yet) been introduced into BFO, we describe why the OEO classifies energy as a quality. We present how energy is differentiated from energy carriers, fuels and other related concepts. The process of energy conversion makes it possible to depict many different types of its generation and usage. Further, we describe the concept of origin of matter and energy. In this article, we define the core concepts of the OEO according to the BFO. We thus demonstrate how the OEO enables the consistent use of core concepts throughout the energy system analysis domain.}
}
@inproceedings{OEO:JOWO:2022:Competency,
  title    = {Competency questions for a test first development of an energy systems analysis ontology},
  author   = {Eugenio S. Arellano Ruiz and Ulrich Frey and Carsten Hoyer-Klick},
  url      = {https://ceur-ws.org/Vol-3249/paper2-Ensusto.pdf},
  crossref = {OEO:JOWO:2022},
  keywords = {energy systems modelling, ontology applications, data models, knowledge graphs},
  abstract = {The field of energy systems research is highly interdisciplinary and handles large amounts of complex data. This complexity calls for specific data management methods. Formal structures like ontologies are increasingly being used to organize information of this field. However, such methods have to be balanced against application development needs. Thus, it is important to be able to evaluate the usefulness of an ontology. This paper is about translating example research questions into queries. These queries can be used to evaluate the completeness of an ontology. They are an instance of what in ontology development are called competency questions. We focus on their use in test first infrastructures. The output of this study is a collection of nine such queries with a detailed explanation of how they were designed. These results are intended to offer an energy systems researcher strategies to organize their demands in regards knowledge graph design. This may help them perform better data management decisions, which have implications on understandability and performance. We emphasize that knowledge organization in such an interdisciplinary field requires splitting up the effort into smaller research units that can later be unified in a larger knowledge graph.}
}

@misc{OEO:NFDI4Energy:2024:CommonStandard,
  title = {Towards a common standard for energy-related domain ontologies -- Lessons learned from the OBO Foundry},
  author = {Mirjam Stappel and Fabian Neuhaus and Hannah Förster and Christian Hofmann and Lukas Emele and Carsten Hoyer-Klick},
  howpublished = {Abstract for the 1. NFDI4Energy Conference 2024},
  month = {02},
  year = {2024},
  doi = {10.5281/zenodo.10627761},
  url = {https://zenodo.org/records/10627762},
  keywords = {OBO foundry, Open Energy Ontology, energy research, domain ontologies,
interoperability, common standards}
}

@proceedings{OEO:JOWO:2024,
  booktitle = {JOWO 2024: The Joint Ontology Workshops},
  year      = 2024,
  editor    = {Ítalo Oliveira and Pedro Paulo F. Barcelos and Rodrigo Calhau and Claudenir M. Fonseca and Guendalina Righetti},
  number    = 3882,
  series    = {CEUR Workshop Proceedings},
  address   = {Aachen},
  issn      = {1613-0073},
  url       = {http://ceur-ws.org/Vol-3882},
  venue     = {Enschede, The Netherlands},
  eventdate = {2024-07-15 to 2024-07-19},
  title     = {Proceedings of the Joint Ontology Workshops (JOWO) -- Episode X: The Tukker Zomer of Ontology, and satellite events co-located with the 14th International Conference on Formal Ontology in Information Systems (FOIS 2024)},
}
@inproceedings{OEO:JOWO:2024:OEOX,
  title    = {OEOX – A Post-Coordination Extension for the Open Energy Ontology},
  author   = {Nele Köhler and Mirjam Stappel and Christoph Muschner and Lukas Emele and Christian Hofmann and Hannah Förster},
  url      = https://ceur-ws.org/Vol-3882/emsusto-3.pdf},
  crossref = {OEO:JOWO:2024},
  keywords = {CEUR-WS, ontology, post-coordination, energy, energy system analysis, extension, modules},
  abstract = {The Open Energy Ontology (OEO) is being developed as a domain ontology for energy system modelling. To increase its usability and react to user requirements, we introduce a post-coordination extension to OEO, the Open Energy Ontology Extended (OEOX). We create OEOX as an ontology for specific energy-related terms with a high complexity that go beyond the level of detail of the standard OEO class hierarchy. It allows for a dynamic ontology composition, enabling precise and tailored annotations for energy system data sets, requiring only minimal manual intervention or curation. In this paper, we describe the user-driven motivation for this ontology extension (Section 2). We illustrate the methodology and early-state practical implementation on behalf of post-composition patterns (Section 3). The ontological annotation of datasets in real-world applications and the usage of OEOX is described in Section 4, complemented by conclusions and summary in Section 5.}
}